CN106052845A - Vibration monitoring systems - Google Patents
Vibration monitoring systems Download PDFInfo
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- CN106052845A CN106052845A CN201610212586.7A CN201610212586A CN106052845A CN 106052845 A CN106052845 A CN 106052845A CN 201610212586 A CN201610212586 A CN 201610212586A CN 106052845 A CN106052845 A CN 106052845A
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Classifications
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04R—LOUDSPEAKERS, MICROPHONES, GRAMOPHONE PICK-UPS OR LIKE ACOUSTIC ELECTROMECHANICAL TRANSDUCERS; DEAF-AID SETS; PUBLIC ADDRESS SYSTEMS
- H04R29/00—Monitoring arrangements; Testing arrangements
- H04R29/008—Visual indication of individual signal levels
-
- G—PHYSICS
- G01—MEASURING; TESTING
- G01H—MEASUREMENT OF MECHANICAL VIBRATIONS OR ULTRASONIC, SONIC OR INFRASONIC WAVES
- G01H11/00—Measuring mechanical vibrations or ultrasonic, sonic or infrasonic waves by detecting changes in electric or magnetic properties
- G01H11/06—Measuring mechanical vibrations or ultrasonic, sonic or infrasonic waves by detecting changes in electric or magnetic properties by electric means
- G01H11/08—Measuring mechanical vibrations or ultrasonic, sonic or infrasonic waves by detecting changes in electric or magnetic properties by electric means using piezoelectric devices
-
- G—PHYSICS
- G01—MEASURING; TESTING
- G01H—MEASUREMENT OF MECHANICAL VIBRATIONS OR ULTRASONIC, SONIC OR INFRASONIC WAVES
- G01H1/00—Measuring characteristics of vibrations in solids by using direct conduction to the detector
-
- G—PHYSICS
- G01—MEASURING; TESTING
- G01M—TESTING STATIC OR DYNAMIC BALANCE OF MACHINES OR STRUCTURES; TESTING OF STRUCTURES OR APPARATUS, NOT OTHERWISE PROVIDED FOR
- G01M99/00—Subject matter not provided for in other groups of this subclass
- G01M99/005—Testing of complete machines, e.g. washing-machines or mobile phones
-
- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04R—LOUDSPEAKERS, MICROPHONES, GRAMOPHONE PICK-UPS OR LIKE ACOUSTIC ELECTROMECHANICAL TRANSDUCERS; DEAF-AID SETS; PUBLIC ADDRESS SYSTEMS
- H04R3/00—Circuits for transducers, loudspeakers or microphones
- H04R3/04—Circuits for transducers, loudspeakers or microphones for correcting frequency response
-
- G—PHYSICS
- G01—MEASURING; TESTING
- G01M—TESTING STATIC OR DYNAMIC BALANCE OF MACHINES OR STRUCTURES; TESTING OF STRUCTURES OR APPARATUS, NOT OTHERWISE PROVIDED FOR
- G01M13/00—Testing of machine parts
- G01M13/04—Bearings
- G01M13/045—Acoustic or vibration analysis
-
- G—PHYSICS
- G01—MEASURING; TESTING
- G01M—TESTING STATIC OR DYNAMIC BALANCE OF MACHINES OR STRUCTURES; TESTING OF STRUCTURES OR APPARATUS, NOT OTHERWISE PROVIDED FOR
- G01M7/00—Vibration-testing of structures; Shock-testing of structures
-
- G—PHYSICS
- G09—EDUCATION; CRYPTOGRAPHY; DISPLAY; ADVERTISING; SEALS
- G09F—DISPLAYING; ADVERTISING; SIGNS; LABELS OR NAME-PLATES; SEALS
- G09F9/00—Indicating arrangements for variable information in which the information is built-up on a support by selection or combination of individual elements
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- Physics & Mathematics (AREA)
- General Physics & Mathematics (AREA)
- Engineering & Computer Science (AREA)
- Acoustics & Sound (AREA)
- Signal Processing (AREA)
- Health & Medical Sciences (AREA)
- General Health & Medical Sciences (AREA)
- Otolaryngology (AREA)
- Measurement Of Mechanical Vibrations Or Ultrasonic Waves (AREA)
Abstract
A vibration monitoring and analysis system may include a transducer configured to convert sensed vibration into an alternating current. A processing module may analyze the alternating current and produce an output configured to convey information regarding characteristics of the alternating current. One or more analysis modules may be utilized to compare a waveform of the sensed vibration to known patterns, for example to identify known events and/or conditions.
Description
Technical field
It relates to for monitoring instrument and the apparatus and method of physical system.More specifically, disclosed reality
Execute example and relate to monitoring and with post analysis vibration and/or sound.
Background technology
Many systems and parts especially electronic equipment can be easily subject to based on being exposed to mechanical stress in time
Damage.Such as, repeat with forms such as vibration, impacts and/or be exposed to energy for a long time to cause sensitivity
Unit failure or deterioration.Even if more robust parts, such as structure support, panel and protective cover, it is also possible to
It is affected over time by negative effect.
Commercial and military spacecraft proposes the illustrative embodiment of this problem.Aircraft has and runs through its whole length
The system of degree.Many systems are crucial to task and/or the performance of aircraft.Such as, aircraft has front machine
Radar electric equipment in body, the hydraulic pressure running through whole fuselage and pneumatic system etc..Military project even has more
Wide set of system and electronic equipment, many of which is task key and some of which is flight
Crucial.
Generally, it is arranged on that carry-on all systems are the most qualified survives in this field desired vibration
Level.This qualification can be vibrated and impact qualification test and complete by execution.Use in this test shakes
Dynamic level is the oscillating load of the optimum prediction of flight profile, mission profile based on hardware weight, position and supposition.
But, aircraft and/or its mobile system the actual environment experienced often is different from when setting up qualification water
Environment desired at ordinary times.Such as, aircraft can be differently configured from it is originally envisaged that and fly.Task parameters is with going out
Existing demand and change, and about flight profile, mission profile it is assumed initially that seldom protect in the life-span of whole aircraft
Hold constant.In another example, some military spacecraft can remain above the service in intended services life-span.?
In another example, parts can be moved around to facilitate design variation in aircraft, or even exists
Moved between aircraft.In some instances, parts can be differently configured from desired by design team and pacified
Dress.In other example, the supposition of error or mistake can be made in initial specification.
The very big energy of life consumption of the different parts of assessment and expense.Aircraft owners needs reliable and quantitative
Understand that life-span of air environment intended services how with aircraft uses to compare.
Additionally, vibration may be used for identifying the situation relevant with machinery and event.Current machinery monitoring system
Special sensor, wiring, power supply and data collecting system can be needed.Additionally, some systems are the most not
Monitored, such as door, washroom, pump etc..But, veteran skilled worker or experienced user are usual
The mark of imminent fault can be detected or identify the sound and vibration being associated with particular event.Cause
This, be expectation for being detected this type of event and the system of situation or method by remotely monitoring vibration environment
's.
Summary of the invention
The invention provides about vibration monitoring and the system of analysis, device and method.In some embodiments
In, vibration instruction system can include being configured to respond to the vibration of sensing and producing the transducing of alternating current
Device, described alternating current has at least one component frequencies;The process circuit communicated with transducer, described place
Reason circuit is configured to when component frequencies falls in the range of first frequency produce the first output;And with process
The array of the vision element of circuit communication, this array be configured in response to process circuit first output and from
First continues visual state changes to the second lasting visual state.
In certain embodiments, sensing system can include being configured to be converted into vibration changing of the signal of telecommunication
Can device;Being electrically coupled to the non-powered processor module of transducer, this processor module is configured to work as the signal of telecommunication
The first output is produced when there is in the range of first frequency frequency component, and when the signal of telecommunication is at second frequency model
The second output is produced when there is in enclosing frequency component;And include that First look indicator and second visually indicates
The array of device, this array and processor module communication;Wherein First look indicator is configured in response to
First example of one output and persistently change state, and the second visual detector is configured in response to second
Output the first example and persistently change state.
In certain embodiments, a kind of method of equipment that monitoring vibration exposes can include use be coupled to by
The non-powered transducer of the equipment of monitoring carrys out sense vibrations;The circuit with transducer communication is used to determine sensing
The frequency of vibration and amplitude, this circuit includes multiple band filters of stacking and only by the output of transducer
Power supply;And utilize passive matrix displays display frequency visually and amplitude information.
In certain embodiments, the method for the equipment that a kind of monitoring vibration exposes can include that use transducer will
The vibration of sensing is converted into the AC signal of telecommunication;The AC signal of telecommunication is split into by the multiple band filters using stacking
Multiple subsignals so that each subsignal corresponds to corresponding component frequencies scope;The each subsignal of rectification with
Produce the corresponding D/C voltage of the amplitude with the intensity corresponding to respective sub-signal;And renewal visual display
Device, to indicate the information of the component frequencies scope of at least one subsignal corresponding constantly.
In certain embodiments, a kind of instrument monitoring system can include being configured to be converted into oscillation energy
There is the transducer of the signal of telecommunication of waveform;And the processor communicated with transducer and memory storage apparatus, should
Processor includes being configured to be continuously generated frequency spectrum and the signature blocks of Fourier transform (FT) based on waveform;
This processor farther includes the comparison module communicated with signature blocks, this comparison module be configured to by
The pattern of the feature of the frequency spectrum generated and the characteristic pattern of the multiple known frequency spectrum being stored in memory storage apparatus
Case relatively identifies the generation of known event, and can by comparing that the FT and intended FT of generation identify
The instrument failure of energy.
In certain embodiments, a kind of method of multiple equipment for monitoring in space can include sense by
The oscillation energy that multiple equipment in space produce;The oscillation energy of sensing is converted to the telecommunications with waveform
Number;Frequency spectrum and Fourier transform (FT) is produced continuously based on this waveform;The feature of the frequency spectrum by generating
Pattern compare the generation identifying known event with the characteristic pattern of multiple known frequency spectrum;And by comparing
The FT generated and intended FT identifies possible instrument failure.
Feature, function and advantage can realize in the various embodiments of the disclosure independently, or can be
Being combined in other embodiments, its further details are referred to the following description and drawings and know.
Accompanying drawing explanation
Fig. 1 is the schematic diagram of the illustrative vibration monitor system of the aspect according to the disclosure.
Fig. 2 is the signal of the illustrative vibration monitor system with passive circuit and lasting human-readable interface
Figure.
Fig. 3 is the block diagram of the illustrative embodiment of the vibration monitor system of depiction 2.
Fig. 4 is that the aspect according to the disclosure illustrates the illustrative electricity being suitable in accumulation vibration monitor system using
The circuit diagram that resistance device and indicator are arranged.
Fig. 5 depicts the illustrative people being suitable in accumulation vibration monitor system using according to the aspect of the disclosure
The readable interface of class.
Fig. 6 is that the aspect according to the disclosure illustrates the illustrative electricity being suitable in peak vibration monitoring system using
The circuit diagram that resistance device, diode and indicator are arranged.
Fig. 7 depicts the illustrative people being suitable in peak vibration monitoring system using according to the aspect of the disclosure
The readable interface of class.
Fig. 8 is that the aspect according to the disclosure illustrates and is suitable for exposing use in level vibration monitor system illustrative
The circuit diagram that resistor, diode, gate and indicator are arranged.
Fig. 9 depicts according to the aspect of the disclosure and is suitable for exposing use in level vibration monitor system illustrative
Human-readable interface.
Figure 10 is arranged to the illustrative vibration monitoring based on vibration mode identification event and/or fault mode
The schematic diagram of system.
Figure 11 is the signal of the various parts of the declarative data processing system of the aspect being suitable for the disclosure
Figure.
Figure 12 is the schematic diagram of the illustrative embodiment of the system of Figure 10.
Detailed description of the invention
The various embodiments of vibration monitor system are being described below and are being illustrated in the accompanying drawing of association.Unless
Be otherwise noted, vibration monitor system and/or its various assemblies can but be not required for including described herein, figure
At least one in the structure, parts, function and/or the variant that show and/or be incorporated to.Additionally, combine this teaching,
Described herein, the process steps, structure, parts, function and/or the variant that illustrate and/or be incorporated to can but not
Require as being included in other similar monitoring systems.The following description of various embodiments is the most only demonstration
Property, and be intended to never in any form limit the disclosure, its application or purposes.Additionally, as described below
The advantage provided by embodiment be substantially illustrative, and not every embodiment provides identical
Advantage or the advantage of same degree.
Fig. 1 illustrates vibration monitor system, and generally represents with 10.Vibration monitor system 10 is the most permissible
Including vibrating sensor 12.Vibrating sensor 12 can include being configured between pressure and electric energy conversion
Any applicable (one or more) transducer.Such as, vibrating sensor 12 can include one or more
Piezoelectric element, mike, accelerometer, deformeter and/or analog, or its combination in any.Vibrating sensor
12 can be passive.In other words, vibrating sensor can be motorless or non-powered, but vibration
Sensor can produce electric energy in response to the pressure change of sensing or oscillation energy (such as, vibration).Pressure
Electric device can be particularly suitable for as vibrating sensor.Such as, including quartz, pottery, synthesis pottery and/
Or the piezoelectric chip (such as, polyvinylidene fluoride (PVDF)) of suitable plastic can be used.
The signal produced by vibrating sensor 12 can be passed to process circuit 14, for analysis.Generally,
This signal can represent the vibration of sensing, and can include waveform.Process circuit 14 and can include any suitable
Close electrically and/or electronic circuit or module and/or any applicable computer implemented software module, process electricity
One or more characteristics that road 14 is configured to determine that in waveform.Such as, process circuit 14 and may determine that letter
Number frequency component, the amplitude of overall signal and the amplitude of frequency component, waveform in pattern, signal
The persistent period of one or more aspects, and/or the time-varying change in waveform.Processing circuit 14 can be simulation
, numeral or analog-and digital-combination.
According to required purposes, process circuit 14 information determined can be shown or by user interface 16
Otherwise by communication with process circuit communication.User interface 16 can include being configured to transmit (example
As, show, announce) about any applicable structure of information of vibration signal of sensing and/or device.Example
As, user interface 16 can include passive vision display, and it includes the array of visual detector or element.
Each element can correspond to characteristic frequency and/or the amplitude of signal.In some instances, it is possible to use figure
User interface.In some instances, it is possible to use power interface.Such as, display screen can show word,
Color, alarm and/or any other visual communication of being suitable for relevant with vibration signal.Such as, circuit is processed
The 14 characteristics match known pattern that may determine that signal, and user can be via the text message on display screen
And it is warned the existence of known pattern.
Vibrating sensor 12 can be arranged in monitoring of environmental 18 or in monitoring of environmental 18.Monitoring of environmental 18
Any space, equipment or the instrument limited monitored by system 10 can be included.Such as, monitoring of environmental 18
Specific instrument component can be included, and vibrating sensor 12 can be mounted to this instrument component.At it
In its example, monitoring of environmental 18 can include closing space (such as, room or the flight comprising multiple equipment
Device), to be monitored by system 10, and vibrating sensor 12 can be arranged on and can receive simultaneously
Center position from the vibrational energy of multiple equipment.
As it is shown in figure 1, vibrating sensor 12 can be arranged in monitoring of environmental 18 or in monitoring of environmental 18,
And other parts of system 10 can be arranged on elsewhere.Such as, process circuit 14 and/or interface 16 can
To separate with monitoring of environmental.In some instances, all parts are all monitoring in environment or are monitoring environmentally.
In some instances, vibrating sensor 12, process circuit 14 and interface 16 are encapsulated as unit.
The many aspects of vibration monitor system may be implemented as computer approach, computer system or computer
Program product.Therefore, the many aspects of vibration monitor system can take complete hardware embodiment, the softest
Part embodiment (including firmware, resident software, microcode etc.) or integration software and the embodiment of hardware aspect
Form, all these generally can be referred to as " circuit ", " module " or " system " herein.Additionally,
The aspect of vibration monitor system can take the computer program embodied with computer-readable medium (or medium)
The form of product, described computer-readable medium (or medium) has the computer-readable journey realized thereon
Sequence code/instruction.
Any combination of computer-readable medium can also be used.Computer-readable medium can be computer
Readable signal medium and/or computer-readable recording medium.Computer-readable recording medium can include electronics,
Magnetic, optical, electromagnetic, infrared and/or semiconductor system, device or equipment, or these any suitable combination.
The more specifically example of computer-readable recording medium can include following items: has one or more wire
Electrical connection, portable computer diskette, hard disk, random access memory (RAM), read only memory
(ROM), Erasable Programmable Read Only Memory EPROM (EPROM or flash memory), optical fiber, portable optic disk are only
Read memorizer (CD-ROM), light storage device, magnetic storage apparatus and/or its any suitable combination etc..?
In the context of the disclosure, computer-readable recording medium can include any applicable tangible medium, and this has
Shape medium can comprise or store used by instruction execution system, device or equipment or with instruction execution system, dress
Put or equipment connects the program used.
Computer-readable signal media can include the data signal propagated, and the data signal of this propagation has embedding
Enter computer readable program code therein, such as, in a base band or as the part of carrier wave.Such
Transmitting signal can include but not limited to take any form in various forms, electromagnetism, optics and/or its
Any appropriately combined.Computer-readable signal media can include any computer-readable medium, this computer
Computer-readable recording medium is not computer-readable recording medium and can communicate, propagate or transmission procedure, in order to by referring to
Execution system, device or equipment is made to use or be connected use with instruction execution system, device or equipment.
Realize program code on a computer-readable medium and can use any suitable medium transmission, including
But it is not limited to wireless, wired, fiber optic cables, RF etc. and/or it is any appropriately combined.
Can be to program language for performing the computer program code of the operation of the many aspects of vibration monitor system
The one or any combination that call the turn and write, described programming language includes OO programming language, such as
Java, Smalltalk, C++ etc., and the procedural of routine, such as C programming language.This program generation
Code can be completely executed on the computer of user, partly perform on the computer of user, as solely
Vertical software kit, partly perform on the computer of user and partly perform on the remote computer or
It is completely executed on remote computer or server.In the case of the latter, remote computer can pass through
Any kind of network and be connected to the computer of user, described any kind of network includes LAN
Or wide area network (WAN), and/or the connection with outer computer that can make (such as, is passed through (LAN)
Use the Internet of ISP).
Flow chart and/or block diagram below with reference to method, device, system and/or computer program describe
The many aspects of vibration monitor system.Each frame and/or the combination of frame in flow chart and/or block diagram can be led to
Cross computer program instructions to realize.Computer program instructions can be provided to general purpose computer, special meter
The processor of calculation machine or other programmable data processing meanss is to produce machine so that by the place of computer
The instruction managing device or other programmable data processing means and perform creates for realizing at flow chart and/or block diagram
Frame or multiple frame in the device of function/action specified.
These computer program instructions can also be stored in computer-readable medium, and described instruction can guide
Computer, other programmable data processing means and/or other devices run in a specific way so that be stored in
Instruction in computer readable medium product produces and includes being implemented in flow chart and/or the frame of block diagram or multiple frame
The article of the manufacture of the instruction of the function/action specified.
Computer program instructions can also be loaded into computer, other programmable data processing means and/or its
On his equipment, so that sequence of operations step is performed to produce computer implemented process on equipment,
The instruction performed on computer or other programmable device is provided for realizing at flow chart and/or block diagram
Frame or multiple frame in the process of function/action specified.
Any flow chart and/or block diagram in the accompanying drawings are intended to the many aspects according to vibration monitor system and system are described
System, the framework of possible embodiment, function and/or the operation of method and computer program product.In this,
Each frame can represent module, section or code section, and it includes (one or more) specified for realization
One or more executable instructions of logic function.In some embodiments, the function pointed out in frame can
Occur with the order outside the order to point out in accompanying drawing.Such as, two frames illustrated continuously can be actually
Being performed the most simultaneously, or these frames can be performed in reverse order sometimes, this depends on involved
Function.The combination of each frame and/or frame can be by execution appointment function or the based on specialized hardware of action
System (or specialized hardware and the combination of computer instruction) realizes.
Example, assembly and replacement
Following section describes the side of the selection of exemplary vibrations monitoring system and relevant system and/or method
Face.Example in these parts is intended to for illustrating, and should not be construed as limited to the whole model of the disclosure
Enclose.Each part can include one or more different invention and/or front and back contact or relevant information,
Function and/or structure.
Part 1:
As in figure 2 it is shown, this section describes, there is passive energy human-readable, that show constantly exposure
Instruction system 20.System 20 is the embodiment of above-mentioned vibration monitor system 10.Therefore, similar parts
Labelling can be carried out by similar reference.
Fig. 2 is the schematic diagram that the aspect according to the disclosure describes passive energy exposure instruction system, and with 20
Represent.System 20 includes the sensing transducer 22 communicated with process circuit 24 and in response to circuit 24
The human-readable interface 26 of one or more outputs.System 20 can include substrate 28, and this substrate is configured
For system 20 is coupled to main process equipment or system 30, such as, system 20 is alternatively coupled to monitored electricity
Sub-instrument component.
Mechanical stress that sensing transducer 22 can include being configured in response to applying (such as, pressure, shake
Dynamic, strain etc.) and produce any suitable transducer of alternating current.Such as, transducer 22 can respond
Vibration in sensing.In certain embodiments, transducer 22 can include piezoelectric element.Such as, transducer
22 can include comprising quartz, pottery, synthesis pottery and/or suitable plastics (such as, polyvinylidene fluoride
(PVDF) one or more piezoelectric chips).About in the embodiment described by system 20, sensing changes
Energy device and system can be generally passive.In other words, except in response to the vibration sensed by transducing
Outside the electric energy that device produces, power supply can not be there is.Transducer 22 can separate with the remaining part of system 20,
Such as be arranged on distance host, and by one or more wires or other electricity conveying member operationally
It is connected to process circuit 24.
The vibration sensed by transducer 22 can be converted to the alternating current with one or more component frequencies
Stream.Alternating current is passed to process circuit 24, is used for analyzing and processing.Process circuit 24 can include by
It is configured so that the most one or more band filter carrys out the filtering part of separation component frequency.Process circuit
24 can also include being configured to by the signal tuning that produced by each band filter to desired output
Reason part.The illustrative embodiment processing circuit 24 is described (seeing part 2) in further detail below.
Human-readable interface (HRI) 26 can include the one or more spies being configured to instruction output
Property and in response to any suitably (one or more) visual detector of the output processing circuit 24.Such as,
When processing the output of circuit 24 corresponding to the frequency range of selection of the vibration of sensing and amplitude, HRI's 26
A part can change state.
HRI 26 can include one or more lasting assembly so that the change in visual state is permanent
And/or continue until further to change and be caused.Such as, HRI 26 can include lasting visually indicating
The matrix of device or array.Such as, HRI 26 can include the array of visual detector, the most one-dimensional or two-dimentional
Linear array.10008 additionally or alternatively, HRI 26 can include other layouts of visual detector, example
Such as, concentric circular (such as, the center of circle), the point (such as, tachometer) being arranged in one or more arc, whole
The part of body, change characteristic discrete component, change the element of shape, tactile element (such as, press by ejection
Button), spell out the words or the element of numeral and/or analog, or these any combination.
Visual detector can include any suitable unit being configured to change state constantly and/or for good and all
Part.Visual detector can have discrete visual state, such as, binary system or open/close state.At some
In example, visual detector can include a series of continuous print visual state.In certain embodiments, vision
Indicator can include one or more low-voltage diode (such as, luminous, crystal or point cantact), comprise
One or more elements etc. of thermochromic material, or its combination in any.
Substrate 28 can include containing or the main body of other parts of support system 20.Such as, substrate 28 can
To include chip, layer, sheet or gel.Substrate 28 can include bindiny mechanism, and it is used for the system that couples 20
To main frame 30.Bindiny mechanism can include binding agent, bonding agent, machanical fastener and/or analog, or its
Combination in any.In certain embodiments, substrate 28 can include for system 20 is directly attached to main frame
The paste of 30.In certain embodiments, system 20 can be integrated into main frame 30.In those embodiments
In, substrate 28 can include a part for main frame 30, such as panel or shell.
Main frame 30 can include any suitable equipment or the system monitored by system 20.Such as, main frame 30
Can include electronic equipment, main body panel, thin panel (such as, on fuselage), structural elements, undercarriage,
Pillar, mast, transport container, external door and/or analog.
Part 2:
As it is shown on figure 3, this section describes, there is passive energy human-readable, that show constantly exposure
Instruction system 40 (such as, sensor).System 40 is the embodiment of system 20 as above.Therefore,
Similar parts can use similar reference to carry out labelling.
Fig. 3 is the schematic diagram of the relation between the assembly of the selection illustrating system 40.
Passive energy exposes instruction system 40 and includes having the sensor 44 with piezoelectric element or wafer format
Sensing part 42.Sensor 44 can include being configured to producing alternating current in the case of vibrations depositing
Any suitable transducer of 46.
Sensing part 42 communicates with processing circuit 48.Process circuit 48 and include filtering part 50.Filtering part
50 can include any suitable filter being configured to that alternating current 46 is separated into one or more component bands
Parts for wave or equipment.Such as, filtering part 50 can include the laminated array of band filter 52, described
Band filter 52 is configured to alternating current 46 is separated into low frequency component 54, low/medium frequency component 56, height
/ intermediate frequency component 58 and high fdrequency component 60.Although describe four component bands about system 40, but can
Any appropriate number of frequency is utilized with the desired visual display according to such as frequency-tracking or the size of space
Band.
Filtering part 50 includes commutator 62-68 (such as, bridge rectifier), and each commutator is configured to
The component signal that rectification is produced by band filter 52.Therefore, in this illustration, four rectifications are (i.e.,
Direct current (DC)) signal of telecommunication 70-76 will export from filtering part 50, each DC signal have corresponding to
The amplitude of the intensity of the respective frequencies component in the vibration of sensing.In other words, giving in DC signal 70-76
The amplitude of fixed one is by proportional for the intensity of the component bands corresponding with alternating current 46.Each DC believes
Number can be referred to as subsignal.
Process circuit 48 and farther include to have the DC process part of multiple DC process group (bank) 80-86
78.Each in DC process group 80-86 includes the analog network of parts (such as, resistor), its quilt
It is configured to produce the output signal of the one or more characteristics in the DC signal (70-76) corresponding to receiving
88-94.These characteristics can include such as amplitude and/or persistent period.Output signal 88-94 is transferred to
The visual display portion 96 of system 40.Such as, each DC process group can be operatively attached to and identical point
One or more visual detectors that amount frequency range is associated.Independent DC process group one or more defeated
Go out the rule according to the selection relevant with the characteristic of analyzed selection or assessment level in visual display portion
Divide to produce in 96 and persistently change.
Therefore, visual display portion 96 can include visual detector array, and it is subdivided into some indicators
Array 98-104.In this example, each pointer array is associated with in component frequencies scope,
And it is configured to receive the output of corresponding DC process group.Therefore, each pointer array is in response to sensing
Vibration in (one or more) characteristic of respective frequencies component and change state.
As it has been described above, vibration instruction system can include being configured to respond to the vibration of sensing and producing exchange
The transducer of electric current, alternating current has at least one component frequencies.Process circuit can with transducer communication,
Described process circuit is configured to when component frequencies falls in the range of first frequency produce the first output.Vision unit
The array of part can be with process circuit communication, and described array is configured in response to process the first output of circuit
And continue visual state from first and change to the second lasting visual state.
In another embodiment, described system can be described as including and be configured to vibration is converted into electricity
The sensor of the transducer of signal.The processor module of non-powered can be electrically coupled to transducer, processor
Module is configured to when the signal of telecommunication has the frequency component in the range of first frequency produce the first output, and
And the second output is produced when the signal of telecommunication has the frequency component in the range of second frequency.Array can include
First look indicator and the second visual detector, described array and processor module communication.First look refers to
Show that device may be configured to the first example in response to the first output and changes state constantly, and second regards
Feel that indicator may be configured to the first example in response to the second output and changes state constantly.
The many aspects of Passive vibration instruction system can be to be utilized in method step described below.Suitable
In the case of when, it is referred to previously described parts and the system that can be used in performing each step.
These are with reference to illustrating that purpose, and are not intended to limit the possibility of any particular step implementing the method
Mode.Description below can not describe complete process in detail.Although each step of the method is retouched following
State, but these steps are unnecessary is all performed, and in some cases, can be described to be different from
The order of order perform.
Specifically, the method for the equipment that monitoring vibration exposes can include using transducer the vibration of sensing to be turned
It is changed to the AC signal of telecommunication.The AC signal of telecommunication can be split into many height letter by the multiple band filters using stacking
Number so that each subsignal corresponds to corresponding component frequencies scope.Each in subsignal can be whole
Flow to produce the corresponding D/C voltage of the amplitude with the intensity corresponding to respective sub-signal.Visual displays can
To be updated to indicate the information corresponding with the component frequencies scope of at least one subsignal constantly.
Use the circuit only powered by the AC signal of telecommunication can perform division and rectification.Visual displays can be grasped
It is connected to this circuit with making.Transducer, circuit and visual displays can be attached to be monitored as encapsulation
Equipment.
Renewal visual displays may further include and indicates the amplitude corresponding at least one subsignal constantly
Information.Renewal visual displays may further include and indicates corresponding at least one subsignal constantly
The information of persistent period.
Visual displays can include the array of vision element.Each vision element can have two possible
Visual state.
The suitable DC process group being used together with system 40 (and other) and the example of pointer array exist
It is described in detail (seeing part 3-5) further below.Embodiment described in part 3-5 includes being configured
The certain illustrative becoming to produce the different information of the vibration stood by main frame or the display of different aspect is arranged.
Part 3:
As illustrated in figures 4-5, this section describes and be suitable for monitoring system (such as system 20 and/or be at Passive vibration
System 40) " accumulation " version in use parts and subsystem.DC process group 150 is described above
DC processes the embodiment of the one or more parts in part 78 and visual display portion 96.Similarly, depending on
Feel that display part 200 is the embodiment of visual display portion 96 as above.Therefore, similar parts can
To use similar reference to carry out labelling.
Fig. 4 is to illustrate that the illustrative resistor being suitable in accumulation vibration monitor system using and indicator are arranged
Circuit diagram.DC process group 150 includes being configured to receive from filtering part (such as, filtering part 50)
DC signal 152 and produce any suitable layout of parts of array or the network of output energy.Output
The array of energy is configured to produce in the visual state of the array of the connection of indicator component persistently change,
The described vibrational energy persistently changed corresponding to the accumulation sensed by the transducer being associated.
Such as, receive DC signal 152 in response to one or more process groups and produce the array of output energy,
Vision element 170-176 can be configured to respond to wherein to export process group 150 defeated exceeding energy threshold
Go out energy and continue visual state from first and change over the second lasting visual state.In the exemplary embodiment,
Corresponding to multiple vision element 170-176 of amplitude of the first output at the corresponding threshold beyond each vision element
Can change during value level and continue visual state to second, thereby indicate that the peak vibration sensed by transducer
Level.
The persistent state of First look indicator changes the amplitude that can correspond to output, and array can wrap
Including the first and second visual detectors, the most each visual detector has two and continues visual state or two
Energy threshold level.In one exemplary embodiment, described array can include one group of visual detector, institute
State one group of visual detector to be arranged (such as, with adjusting to a line) and make a part for this group visual detector
Can change to the second visual perseveration state from First look persistent state, thus provide and sense with by transducer
To frequency band or the visually indicating of the peak vibration energy level that is associated of scope.By this way, for many
The visual detector (such as, with adjusting to a line) each with one group of layout in individual array, often organizes vision
A part for indicator can change to the second visual perseveration state from First look persistent state, with provide by
Visually indicating of each peak vibration energy level in multiple component bands that transducer senses.
Therefore, the system including DC process group 150 is display configured to be stood by monitored main process equipment
Accumulation vibrational energy.In order to realize this function, DC process group 150 includes the network of resistive stacking.At figure
In the illustrated examples described in 4, four such stackings (154-160) are organized in parallel with each other.
Other suitably layout of parts can be used to similar effect with network.
Each resistive stacking includes one or more resistance element (such as, resistor).In showing that Fig. 4 describes
In example, it is shown that each stacking there is single representative resistor, be called resistor 162-168.But,
More or less of resistor can be used in each stacking.
In this illustration, (such as, resistor 162-168 each can have different resistance values
Measure with ohm).Such as, resistor 162 can have the resistance lower than resistor 164, resistor 164
Can have the resistance lower than resistor 166, resistor 166 and then can have than resistor 168 more
Low resistance.Therefore, stacking 154-160 can be arranged with the order of resistance that reduces from top to bottom.
Each stacking of resistive stacking 154-160 may be connected to corresponding vision element 170-176 (also referred to as
For visual detector and/or visual detector element).These elements are collectively referred to as the battle array of vision element 170-176
Row 178.In this example, each vision element is configured to gradually and constantly change its visual state.Example
As, vision element can be dumped to described element along with electric energy and change into from incandescent very dark.In described unit
After part receives the electric energy of certain cumulant, it is possible to achieve be transformed into very dark state.
When DC signal 152 processed group 150 reception, all vision element 170-176 all experience certain journey
The state of degree changes (such as, damage or deteriorate).But, due to the resistance value of the reduction in stacking, relatively low
Vision element will stand more energy and change visual state more than higher elements.Due to higher
Resistance value, have less electric current to flow through indicator.Vision element will be had by DC signal 152 subsequently
Similar effect, this depends on signal intensity and/or persistent period.
Due to the staggered resistance value of stacking, lower visual detector (such as) than on visual detector less
After exposure, will proceed to secretly from bright.Such as, in order to change completely between the extreme value of visual state, element
The amount (with the form of DC signal 152) of the accumulation input energy that 172 can need is the tired of element 170 needs
Three times of the amount of long-pending input energy.Similar relation may reside between remaining element, wherein difference by
The resistance value of the selection of each stacking determines.Staggered resistor network allows signal and all visual detector phases
Interaction, to change degree, produces the instruction of cumulative exposure.During the longest one section of low-down amplitude signal
Between whole visual exposure frequency band will be made saturated such as shorter, high-intensity signal.
The corresponding array 178 of DC process group 150 and vision element 170-176 is associated with single component bands.
Therefore, array 178 is displayed on this frequency band the cumulant exposed.Additional DC process group and corresponding regarding
Feel that array is displayed for the impact on multiple frequency bands.Each visual array in these type of visual array multiple
Any an appropriate number of vision element can be included.Similarly, any an appropriate number of visual array can be by
It is included in integral display.
Fig. 5 is to be suitable for making in accumulation vibration monitor system (the accumulation vibration monitor system such as just described)
Illustrative human-readable interface or visual display portion 200.Visual display portion 200 includes that 16 regard
The matrix of feel array 202, each visual array has 14 vision elements or indicator 204.Other is real
Execute example and can include more or less of array and/or indicator.Each visual array 202 is above-mentioned vision
The example of array 178.
In the embodiment that Fig. 5 is described, each visual array 202 is arranged to the vertical of indicator 204
Line.Each visual array 202 is associated from different component frequencies scopes or " bucket ".Instruction component frequencies
The label of scope is arranged in the display part 200 below each orthogonal array.Such as, the vision of selection
Array 206 is shown in broken lines.The visual array 206 selected can represent any given frequency range.?
In this example, the visual array 206 of selection indicates or correspond to the scope of 300Hz to 500Hz.At this
Cumulative exposure in frequency range is become by the indicator of several changes and/or the state in the indicator of array
The degree changed represents.In this illustration, nine indicators 204 in the visual array 206 selected
Change state, shown in the range of 300-500Hz, have been subjected to about 1,000 cycles.Scope and/or
Periodicity can be approximation, and can be based on DC processing block and/or the characteristic of the selection of band filter.
With continued reference to Fig. 5, visual display portion 200 can include a part for body vibration monitoring system 208.
System 208 may be largely analogous to system 40 as above.Therefore, sensor (such as, piezo crystals
Sheet) and process circuit can be embedded in substrate 210.Display part 200 is on the surface of substrate 210
On the human-readable interface faced outwardly.In some instances, system 208 can include being attachable to for shaking
The paste of the host instrument of dynamic monitoring or label.In the case of system 208 is attached to main frame, technology
Personnel or other user can easily monitor the accumulation that host instrument has been subject to and vibrate.Then, this letter
Breath can tracked and/or with expection vibration compared with.Then, it is contemplated that device longevity can such as by will
Cumulative actual vibration is updated compared with expection vibration in time.Such as, electronic equipment can be expected
To run the entire life corresponding to the some cycles under one or more frequencies fully.In the design phase,
The actual amount of time in the cycle accumulating this quantity must be estimated.System (such as system 208) allows user to determine
The actual percentage in the total cycle accumulated by main process equipment, thus enables residual life more accurate and continuous
Be estimated.
Part 4:
As shown in fig. 6-7, this section describes be suitable for Passive vibration monitor system (such as system 20 and/
Or system 40) " peak level " version in use parts and subsystem.DC process group 250 is above-mentioned
DC process the embodiment of one or more parts of part 78 and visual display portion 96.Similarly, depending on
Feel that display part 300 is the embodiment of above-described visual display portion 96.Therefore, similar parts
Similar reference can be used to carry out labelling.
Fig. 6 is to illustrate the illustrative resistor, the diode that are suitable in peak vibration monitoring system using and refer to
Show the circuit diagram that device is arranged.DC process group 250 includes being configured to receive from filtering part (such as, filter
Ripple part 50) DC signal 252 and produce output energy array parts any suitable layout or
Network.The array of output energy is configured to holding of the visual state of the array of the connection of generation indicator component
Continuous change, this persistently changes the vibration corresponding to peak value sensing.
Therefore, the system including DC process group 250 is display configured to be experienced by monitored host instrument
Peak vibration energy.In order to realize this function, DC process group 250 includes the network of resistive stacking, each
Stacking has threshold value, is flow through by no current less than this threshold value.Depicted in figure 5 in illustrated examples,
Four such stackings (254-260) are organized in parallel with each other.Other of parts is suitably arranged and network
Similar effect can be used to produce.
Each resistive stacking includes one or more resistance element (such as, resistor).Described at Fig. 5
In example, it is shown that each stacking there is single representative resistor, be called resistor 262-268.So
And, each stacking can use more or less of resistor.
As in example above, resistor 262-268 can be respectively provided with different resistance values (such as, with Europe
Nurse is measured).Such as, resistor 262 can have the resistance lower than resistor 264, and resistor 264 can
To have the resistance lower than resistor 266, resistor 266 and then can have lower than resistor 268
Resistance.Therefore, stacking 254-260 can arrange to drop low-resistance order from top to bottom.
Except resistance element and with resistance element in series, each stacking also includes Zener (Zener) two pole
Pipe or equivalent.Each including in Zener diode 270-276 is configured to prevent electric current in corresponding stacking
Middle flowing is unless voltage is higher than any parts of the threshold value (such as, the breakdown voltage of Zener diode) selected
Or multiple parts.Therefore, electric current will not be in flowing in any given stacking in stacking 254-260, removes
Non-voltage (it is reduced by corresponding resistor) is higher than threshold value.
Each stacking in resistive stacking 254-260 may be connected to corresponding vision element 278-284 (also
It is referred to as visual detector and/or visual detector element).These elements are collectively referred to as the array 286 of vision element.
In this example, each vision element can be configured to change its visual state in a binary fashion.Such as,
Vision element can be changed into very dark when electric energy is dumped to element from incandescent.When element have received certain
During the electric energy of tittle, the conversion of very dark state can be realized the most immediately.This amount of electric energy can be big
Threshold quantity in the attribute of view-based access control model element.In certain embodiments, vision element can be above
Gradual described in example.In those embodiments, effective binary condition changes still can be by really
Protecting voltage in vision element is effectively zero or sufficiently high to change and produce reaching complete visual state.
When DC signal 252 is received by process group 250, whole stacking 254-260 stand input voltage.By
The resistance value declined in stacking, bigger voltage will be presented at the Zener diode of low stacking.There is no electricity
Pressure will be passed to the vision element being associated of any stacking, unless this voltage is more than Zener breakdown level.
Therefore, Zener diode threshold value will make the signal discrete existed at vision element.Little input signal will be by
Stop, and bigger signal is by essentially unobstructed.Vision element will be had by DC signal 252 subsequently
Similar effect, this depends on signal intensity.The vision element having changed state will remain in " unlatching "
Or " enabling " state.If signal is high enough to affect previous unchanged vision element, then this element is also
State will be changed.This allows visual array 286 to describe the peak swing of the vibration sensed by system.
Due to the staggered resistance value of stacking, comparing visual detector, lower visual detector will be with smaller value
DC signal 252 change state.Such as, element 280 can at signal equal to change state at-30 decibels,
And element 278 change state at signal is equal to-40 decibels.Similar relation can be between remaining element
Existing, wherein difference is determined by the resistance value of the selection of each stacking.
The corresponding array of DC process group 250 and vision element 286 is associated with single component bands.Therefore,
Array 286 is displayed in this frequency band the peak volume exposed.Additional DC process group and corresponding visual array can
For the display impact on multiple frequency bands.Each visual array in these type of visual array multiple can include
Any an appropriate number of vision element.Similarly, any an appropriate number of visual array can be included in whole
In body display.
Fig. 7 is to be suitable for making in peak vibration monitors system (the peak vibration monitoring system such as just described)
Illustrative human-readable interface or visual display portion 300.Visual display portion 300 includes that 16 regard
The matrix of feel array 302, each visual array has 14 vision elements or indicator 304.Other is implemented
Example can include more or less of array and/or indicator.Each visual array 302 is above-mentioned vision battle array
The example of row 286.
In the embodiment that Fig. 7 is described, each visual array 302 is arranged to the vertical of indicator 304
Line.Each visual array 302 is associated from different component frequencies scopes or " bucket ".Instruction component frequencies
The label of scope is arranged in the display part 300 below each orthogonal array.Such as, the vision of selection
Array 306 is shown in broken lines.The visual array 306 selected can represent any given frequency range.?
In this example, the visual array 306 of selection indicates or correspond to the scope of 500Hz to 700Hz.At this
Peak value in frequency range exposes multiple indicators of the array by having changed state and indicates.At this
In example, eight indicators 304 in the visual array 306 selected have changed state, show
Have been subjected to be up to about the vibration of-6 decibels (db) in the range of 500-700Hz in intensity.Scope and/or peak
Value can be approximation, and can be based on DC processing block and/or the characteristic of the selection of band filter.
With continued reference to Fig. 7, visual display portion 300 can include a part for body vibration monitoring system 308.
System 308 may be largely analogous to system as described above 40.Therefore, sensor (such as, piezo crystals
Sheet) and process circuit can be embedded in substrate 310.Display part 300 is on the surface of substrate 310
On the human-readable interface faced outwardly.In some instances, system 308 can include being attachable to for shaking
The paste of the host instrument parts of dynamic monitoring or label.In the case of system 308 is attached to main frame,
Technical staff or other user can easily monitor the peak vibration that host instrument has been subject to.Then,
This information can tracked and/or with vibration prospective peak value level compared with.Higher peak vibration levels can
To show possible instrument damage or deterioration.Therefore, when peak level exceedes intended or desired limit,
The extra monitoring of host instrument, test or replace and can be performed.
Part 5:
As Figure 8-9, this section describes be suitable for Passive vibration monitoring system (such as system 20 and/
Or system 40) " exposure level " version in use parts and subsystem.DC process group 350 is above
The DC described processes the embodiment of one or more parts of part 78 and visual display portion 96.Similarly,
Visual display portion 400 is the embodiment of above-described visual display portion 96.Therefore, similar parts
Similar reference can be used to carry out labelling.
Fig. 8 be illustrate be suitable in exposure level monitoring system use illustrative resistor, diode,
The circuit diagram that gate and indicator are arranged.DC process group 350 includes being configured to receive from filtering part
The DC signal 352 of point (such as, filtering part 50) also produces parts any of array of output energy
Suitable layout or network.The array of output energy is configured to regarding of the connection array of generation indicator component
Lasting change in feel state, this persistently changes corresponding to graininess exposure level.Such as, persistently changing can
With corresponding to being exposed to the persistent period of vibration, level and frequency range.Therefore, Passive vibration monitoring system
This version can be referred to as three dimension system (that is, time, level and frequency).
System including DC process group 350 is display configured to the three of the vibrational energy experienced by host instrument
Individual aspect.In order to realize this function, DC process group 350 includes the network of the complementary resistive stacking of logic,
Each stacking has threshold value, is flow through by no current less than this threshold value.Illustrated examples depicted in figure 8
In, four such stackings (354-360) are organized in parallel with each other.Other of parts suitably arrange and
Network can be used to produce similar effect.
Each resistive stacking includes one or more resistance element (such as, resistor).Described at Fig. 8
In example, it is shown that each stacking there is single representative resistor, be called resistor 362-368.So
And, each stacking can use more or less of resistor.
As in example above, resistor 362-368 can be respectively provided with different resistance values (such as, with Europe
Nurse is measured).Such as, resistor 362 can have the resistance lower than resistor 364, and resistor 364 can
To have the resistance lower than resistor 366, resistor 366 and then can have lower than resistor 368
Resistance.Therefore, stacking 354-360 can be arranged to drop low-resistance order from top to bottom.
Except resistance element and with resistance element in series, every stacking also includes Zener diode or equivalent.
Each in Zener diode 370-376 include being configured to prevent electric current from flowing in corresponding stacking unless
Voltage is higher than any parts of the threshold value (such as, the breakdown voltage of Zener diode) selected or multiple parts.
As in example above, electric current will not be in flowing in any given stacking in stacking 354-360, removes
Non-voltage (it is reduced by corresponding resistor) is higher than threshold value.
DC process group 350 also includes multiple NAND gate (378-382), and one of them NAND gate will be every
Individual stacking is connected to a stacking its lower next-door neighbour, as shown in Figure 8.Each NAND gate includes having two
Individual input and any suitable parts of an output, these parts are configured to produce output, unless two defeated
Enter is all " high " or " conducting ".Therefore, the signal beyond Zener 370 threshold value will produce in stacking 354
Output, unless the signal in stacking 356 exceedes Zener 372.Similar result is present in stacking subsequently.
Net effect/actual result (net effect) is, the given Zener threshold causing voltage to exceed more than one stacking
The input signal 352 of value, generation is exported by the stacking only with maximum resistance.In other words, if believed
The intensity of numbers 352 makes whole four stackings generation be exported, and the most only stacking 360 is by do so.Similarly,
Generation being exported if the intensity of signal 352 makes bottom fold 354 and 356, the most only stacking 356 is by this
Sample does.
Each stacking in resistive stacking 354-360 may be connected to corresponding vision element 384-390 (also
It is referred to as visual detector and/or visual detector element).These elements are collectively referred to as the array 392 of vision element.
In this example, each vision element is configured to gradually and constantly change its visual state.Such as, depending on
Feel that element can be dumped to element along with electric energy and change into from incandescent very dark.Certain accumulation is received at element
After the electric energy of amount, it is possible to achieve to the conversion of very dark state.
When DC signal 352 is received by process group 350, whole stacking 354-360 stand input voltage.By
The decline of resistance value in stacking, bigger voltage will present at the Zener diode of low stacking.There is no electricity
Pressure will be passed to the vision element being associated of any stacking, unless this voltage is higher than Zener breakdown level.
Therefore, discretization is present in the signal at NAND gate by the threshold value of Zener diode.Little input signal will
It is prevented from, and bigger signal is by essentially unobstructed.As it has been described above, NAND gate will work with choosing
Only highest signal is allowed to selecting property to proceed to visual array 392.Therefore, the most only impact (i.e., visually changes
Become) element of visual array 392.DC signal 352 subsequently will be similarly processed, the most single
Vision element is impacted according to signal intensity and/or persistent period.This allows visual array 392 to describe by being
The level of the vibration that system monitors and persistent period.
The corresponding array of DC process group 350 and vision element 392 is associated with single component bands.Therefore,
The cumulant that array 392 will expose with given level display on this frequency band.Additional DC process group and right
The visual array answered can be used for the display impact on multiple frequency bands.Each in these type of visual array multiple
Visual array can include any an appropriate number of vision element.Similarly, any an appropriate number of vision battle array
Row can be included in integral display.
Fig. 9 is suitable at exposure level vibration monitor system (the exposure level vibration prison being the most just described
Examining system) in use illustrative human-readable interface or visual display portion 400.Visual display portion 400
Including the matrix of 16 visual array 402, each visual array has 14 vision elements or indicator
404.Other embodiments can include more or less of array and/or indicator.Each visual array 402 is
The example of above-mentioned visual array 392.
In the embodiment that Fig. 9 is described, each visual array 402 is arranged to the vertical of indicator 404
Line.Each visual array 402 is associated from different component frequencies scopes or " bucket ".Instruction component frequencies
The label of scope is arranged in the display part 400 below each orthogonal array.Such as, the vision of selection
Array 406 is shown in broken lines.The visual array 406 selected can represent any given frequency range.?
In this example, the visual array 406 of selection indicates or correspond to the scope of 100Hz to 200Hz.At this
Exposure level in frequency range is by each state in the indicator in the visual array 406 selected
Indicate.Intensity or degree that state changes correspond to cumulative exposure, and each element is corresponding to different levels
(such as, decibel level).In this example, nine indicators 404 in array 406 have changed shape
State is in various degree.Such as, based on complete from the bottom up of display of the four, the 5th and the 6th indicator
Whole visual state changes, and the level of-20db ,-15db and-10db has been subjected at least 20,000 hour.?
In Fig. 9, the right side of display provides explanation.Similarly, based on first three indicator at the end of display
The part change of the visual state at portion, the level of-40db ,-30db and-25db has experienced about 1 to 1,000
Individual hour.Scope, peak value and/or persistent period can be approximation, and can based on DC processing block and/
Or the characteristic of the selection of band filter.
With continued reference to Fig. 9, visual display portion 400 can include a part for body vibration monitoring system 408.
System 408 may be largely analogous to above-mentioned system 40.Therefore, sensor (such as, piezoelectric chip)
Can be embedded in substrate 410 with processing circuit.Display part 400 is on the surface of substrate 410
The human-readable interface faced outwardly.In some instances, system 408 can include being attachable to for vibrating prison
The paste of the host instrument parts surveyed or label.In the case of system 408 is attached to main frame, technology
Personnel or other user can easily monitor persistent period and the intensity that host instrument has experienced.Then,
This information can be tracked and/or compared with expection level.Higher peak vibration levels and/or longer holding
The continuous time may indicate that possible instrument damage or deterioration.Therefore, exceed when peak level and/or persistent period
During intended or desired limit, the extra monitoring of host instrument, test or replace and can be performed.
Similarly, device longevity can be monitored based on the level of persistent period and vibration.
Part 6:
As shown in Figure 10, this section describes power type vibration monitor system, be generally designated as 500.System
500 is the example of system as described above 10.Therefore, similar parts can use similar reference
Carry out labelling.
Figure 10 is the schematic block diagram of the parts of the selection illustrating vibration monitor system, wherein said vibration monitoring system
System is configured to based on vibration patterns identification event and/or fault mode.System 500 includes sensor 502,
It can include any suitable transducing being configured to that oscillation energy is converted into the signal of telecommunication with waveform
Device.Such as, sensor 502 can include piezoelectric element (basically described above), accelerometer, mike
And/or analog, or its combination in any.
The output of sensor 502 is passed to signature blocks 504, and described signature blocks 504 includes being configured to
Process any suitable parts, module, hardware and/or the software of the also signal of telecommunication of analyte sensors 500.Example
As, signature blocks 504 can include AD converter.In certain embodiments, signature blocks 504
Can include that analysis part, described analysis part are configured to based on the ripple corresponding to being produced by sensor 502
The frequency spectrum of shape and generate one or more fingerprint.Produce the appropriate methodology of this type of fingerprint in United States Patent (USP) No.
Disclosed in 6,990,453, it passes through to quote at this to be herein incorporated by reference in its entirety, for all purposes.Such as,
One or more marks can be built at the one or more spaced apart time in the persistent period of signal
Vertical.At each mark, one or more characteristics of the frequency spectrum of waveform can be determined and be digitally encoded.
Often organize digitally coded characteristic and can include the substantially identification signature of fingerprint, pattern or waveform.Additionally or replace
Dai Di, processor module 504 can generate or produce the Fourier transform (FT) of signal and (such as, use soon
Speed Fourier transform (FFT) method).Any suitable method can be used to produce the table of the frequency domain of signal
Show.
Identification and/or the descriptive analysis of the waveform of gained are transferred to comparison module 506 by signature blocks 504,
This comparison module 506 communicates with memory storage apparatus 508.Comparison module 506 can include being configured to
By by fingerprint (that is, the pattern of the feature of the frequency spectrum of generation) be stored in memory storage apparatus 508
Multiple known fingerprint (that is, spectrum signature pattern) compare and identify any conjunction that known event occurs
(one or more) software fitted and/or hardware module.Alternatively or additionally, comparison module 506 can
Identify possible instrument failure to be configured to compare the FT and intended FT of generation, such as pass through
Use the Fault Identification rule set up.
Memory storage apparatus 508 can be Local or Remote, and can include so-called cloud reservoir.
Being explained further of memory storage apparatus generally comprises in following content (see part 7).To memorizer
The input 510 of storage device 508 can be provided so that user or other system can be by new or amendments
Pattern and/or rule be stored in memory storage apparatus 508.Study module 512 can be included, institute
State study module 512 to run with automatically, utilize user to input or automatically and utilize user defeated
Enter a combination of both to recognize new pattern or rule.Study module 512 can such as recognize memorizer storage
Non-existent pattern in device.This type of pattern not recognized can cause the attention of user, in order to further
Describe or investigation.Therefore the identification information of new pattern and association can be placed in memory storage apparatus.
In certain embodiments, learning algorithm can be used for system being exposed to the various examples of new pattern and determining
The scope of the change in pattern that can be expected.
The output of comparison module 506 can be passed to communication module 514.Communication module 514 can include by
It is configured to be transferred to the information about comparative result any suitable parts of user or interface system.Such as,
Communication module 514 can include human-readable interface, graphic user interface (GUI), warning system, text
And/or icon shows, alarm and/or analog, or these combination in any.Communication module 514 can include
Disposal ability, such as, determines the deviation with normal parameter.
One or more modules of system 500 or miscellaneous part may be implemented as being performed by computer processor
Instruction.The additional feature of system 500 and embodiment are being described in detail further below.
Part 7:
As shown in figure 11, this example describes data handling system 600 according to the aspect of the disclosure, and it is also claimed
For computer.In this example, data handling system 600 is suitable for realizing vibration monitor system 500
The declarative data processing system of aspect.More specifically, in some instances, the enforcement of data handling system
The equipment (such as, smart mobile phone, panel computer, personal computer) of example can perform to instruct to realize signing
Some or all in name module 504, comparison module 506 and/or communication module 514.Retouch in the portion
The various parts stated and system can store information, and this information is by system 500 (such as by comparison module 506)
Use.
In this illustrated examples, data handling system 600 includes communications framework 602.Communications framework 602 carries
For in processor unit 604, memorizer 606, persistent storage 608, communication unit 610, input/defeated
Go out the communication between (I/O) unit 612 and display 614.Memorizer 606, persistent storage 608,
Communication unit 610, input/output (I/O) unit 612 and display 614 are by processor unit 604
Example via the addressable resource of communications framework 602.
Processor unit 604 is used for performing to be loaded into the instruction of memorizer 606.Processor unit 604
Can be multiple processor, multi-processor core or some other kinds of processors according to specific embodiment.
Additionally, processor unit 604 can use multiple heterogeneous processor systems to realize, at the plurality of isomery
Primary processor in reason device is present on one single chip together with secondary processor.As another illustrated examples,
Processor unit 604 can be the symmetric multiprocessor system of the multiple processors comprising same type.
Memorizer 606 and persistent storage 608 are the examples of storage device 616.Storage device is can
Storage information, such as, nonrestrictive, data, the program code of functional form and based on temporarily or
Any hardware of other suitable information permanent.
Storage device 616 is also referred to as computer readable storage devices in these examples.In these examples
In, memorizer 606 it may be that such as, random access memory or other suitable volatibility or non-any
Volatile storage devices.Persistent storage 608 can take various forms, and this depends on particular implementation side
Formula.
Such as, persistent storage 608 can comprise one or more parts or equipment.Such as, permanent
Reservoir 608 can be hard disk drive, flash memory, CD-RW, rewritable tape or more than
Some combination.The medium used by persistent storage 608 can also be removable.Such as, can move
The hard disk drive removed can be used for persistent storage 608.
In these examples, communication unit 610 provides and other data handling systems or the communication of equipment.?
In these examples, communication unit 610 is NIC.Communication unit 610 can by use physics and
One or both in wireless communication link provide communication.
Input/output (I/O) unit 612 allows and the miscellaneous equipment that may be connected to data handling system 600
Data input and output.Such as, input/output (I/O) unit 612 can pass through keyboard, mouse and/or one
Other suitable input equipments a little provide user the connection of input.Further, input/output (I/O) unit 612
Printer can be sent output to.Display 614 provides a kind of mechanism to display information to user.
Instruction for operating system, application program and/or program may be located in storage device 616, storage
Equipment 616 is communicated with processor unit 604 by communications framework 602.In these illustrated examples, refer to
Order is stored on persistent storage 608 with functional form.These instructions can be loaded into memorizer 606
To be performed by processor unit 604.The process of different embodiments can be made to use tricks by processor unit 604
The instruction that calculation machine realizes performs, and computer implemented instruction may be located in memorizer, such as memorizer 606.
Programmed instruction that these instructions are referred to as can being read by the processor in processor unit 604 and be performed,
Program code, computer usable program code or computer readable program code.Journey in different embodiments
Sequence code can be implemented on different physics or computer-readable recording medium, such as memorizer 606 or forever
Property reservoir 608 for a long time.
Program code 618 is positioned on the computer-readable medium 620 that selectivity is removable with functional form, and
And can be loaded into or be sent to data handling system 600, to be performed by processor unit 604.At these
In example, program code 618 and computer-readable medium 620 form computer program 622.At one
In example, computer-readable medium 620 can be computer-readable recording medium 624 or computer-readable letter
Number medium 626.
Computer-readable recording medium 624 can include, such as, is inserted into or is placed in driver or other set
Standby CD or disk, this computer-readable recording medium 624 is a part for persistent storage 608,
For transferring to storage device, such as hard disk drive, it is a part for persistent storage 608.Meter
Calculation machine readable storage medium storing program for executing 624 can also take the form of permanent storage device, such as hard disk drive,
Thumb actuator or flash memory, it is connected to data handling system 600.In some cases, calculate
Machine readable storage medium storing program for executing 624 cannot remove from data handling system 600.
In these examples, computer-readable recording medium 624 is the physics for storing program code 618
Or tangible storage device rather than propagation or the medium of transmission procedure code 618.Computer-readable storage medium
Matter 624 also referred to as computer-readable tangible storage device or computer-readable physical storage device.In other words
Saying, computer-readable recording medium 624 is the medium that can be touched by people.
Alternately, program code 618 can be transferred by using computer-readable signal media 626
To data handling system 600.Computer-readable signal media 626 can be such as to comprise program code 618
The data signal propagated.Such as, computer-readable signal media 626 can be electromagnetic signal, optical signal and/
Or the signal of any other suitable type.These signals can pass through communication link such as wireless communication link,
Fiber optic cables, coaxial cable, wire and/or the communication link of other suitable type any and sent.Change sentence
Talking about, in an illustrative embodiment, communication link and/or connection can be entities or wireless.
In some illustrative embodiment, program code 618 can lead to from another equipment or data handling system
Cross computer-readable signal media 626 and be downloaded to persistent storage 608 via network, to process in data
Use in system 600.Such as, the computer-readable recording medium being stored in server data processing system
In program code can download to data handling system 600 by network from server.Program code is provided
The data handling system of 618 can be that server computer, client computer maybe can store and transmission procedure
Some miscellaneous equipments of code 618.
Not meaning that for the different parts shown in data handling system 600 can be by reality to different embodiments
The mode executed provides structure to limit.Different illustrative embodiment can be implemented in a data processing system,
This data handling system includes except and/or replaces the parts of those parts shown in data handling system 600.
Other parts shown in Figure 11 can change according to the illustrated examples illustrated.Different embodiments can make
With can any hardware device of program code execution or system realize.As an example, data process
System 600 can include the organic component integrated with inorganic parts and/or can be completely by not including having of the mankind
Machine parts are constituted.Such as, storage device can be made up of organic semiconductor.
In another illustrated examples, processor unit 604 can be taked to have and be manufactured or be configured to use
The form of hardware cell in the circuit of special-purpose.Such hardware can perform operate without
Program code is loaded into memorizer from storage device, thus is configured to perform operation.
Such as, when processor unit 604 takes the form of hardware cell, processor unit 604 can be
Circuits System, special IC (ASIC) if, PLD or be configured to perform dry run
The hardware of some other suitable types.For PLD, if this device is configured to described in execution
Dry run.This device can be reconfigured or can for good and all be configured to described in execution the time afterwards
If dry run.The example of PLD includes, such as, and programmable logic array, field-programmable
Logic array, field programmable gate array and other suitable hardware devices.By such embodiment party
Formula, program code 618 can be omitted, because the process of different embodiment can realize in hardware cell.
In another illustrated examples, processor unit 604 can use pacifies in computer and hardware cell
The combination of the processor put realizes.Processor unit 604 can have and is configured to program code execution 618
Multiple hardware cells and multiple processor.In the example of this description, some process can be the plurality of
Hardware cell realizes, and other process can realize in the plurality of processor.
In another example, bus system can be used for realizing communications framework 602 and can be by
Or multiple bus is constituted, such as, system bus or input/output bus.Certainly, bus system can use
The architecture of any suitable type realizes, and described architecture provides and is being attached to the difference of bus system
Data transmission between assembly or equipment.
Additionally, communication unit 610 can include transmitting data, receiving data or transmission and receive data
Several devices.Such as, communication unit 610 can be that modem or network adapter, two networks are fitted
Orchestration or their some combinations.Further, memorizer can be that such as memorizer 606 or speed buffering are deposited
Reservoir, exists in the such as interface in may reside in communications framework 602 and Memory Controller hub
Memorizer.
Block diagram described herein illustrates framework, function and system, method according to various illustrative embodiment
Operation with the possible embodiment of computer program.
Part 8:
As shown in figure 12, this section describes and be configured to identify event and/or fault mould based on vibration patterns
The vibration monitor system 700 of formula.System 700 is the example of system as described above 500.Therefore, it is similar to
Parts can use similar reference to carry out labelling.
Figure 12 is various modules and the schematic diagram of function illustrating vibration monitor system 700.
System 700 includes substantially above with respect to the vibration-sensing transducer 702 as described in system 500.Transducer
702 can be single sensors or can include multiple sensor.Transducer 702 can be mounted or with other
Mode is arranged on certain position so that can be from multiple devices and the sound of instrument component and/or other vibration
At transducer sensed.Such as, aircraft can be monitored by the transducer being arranged near the midpoint of fuselage.
In other example, the space accommodating the factory of instrument, room or closing can be by wall or ceiling
Or the transducer placed near wall or ceiling monitors.In some instances, multiple systems 700 are permissible
Being used, each system has the corresponding transducer 702 arranged in monitored separated space.At some
In example, multiple transducers 702 can be fed into an analysis part of system 700.
The alternating current produced by transducer 702 is passed to signal-adjusting module 704.Module 704 can be wrapped
Include and be configured to regulate signal with any suitable hardware analyzed further and/or software.Such as, signal is adjusted
Joint module 704 can include analog to digital (A/D) transducer, one or more amplifier, one or many
Individual wave filter and/or analog, or their combination in any.
The digital signal being adjusted is then passed to corresponding to above-mentioned signature and comparison module (504 and 506)
Level.More specifically, the digital signal being adjusted is passed to spectrum analysis module 706 and Fourier transform
(FT) module 708 is analyzed.
Spectrum analysis module 706 is configurable to generate the frequency spectrum corresponding to input signal.Fingerprint module 710 produces
The fingerprint of raw signal.These fingerprints can be described as describing the digital coding pattern of the feature of this signal.Refer to
Stricture of vagina is also described as spectral characteristic pattern.Frequency spectrum can include frequency curve chart in time, wherein by often
The intensity of individual data point or color indication signals amplitude.Characteristic can include higher-strength point any given time
Between the position at place, and/or the position that this type of higher-strength the most unanimously or constantly occurs.Such as, fortune
Row centrifugal pump at steady state can produce relatively uniform frequency spectrum.Similarly, identical centrifugal pump exists
Distinct spectral can be had startup stage during.
Spectrum analysis module 706 can farther include monitoring function 712, its intermediate frequency spectrum and fingerprint by continually or
Produce continuously.This function can include the storage of the frequency spectrum of some buffering quantity, such as, corresponding to choosing
The time span selected.This and further feature can utilize central authorities, distributed and/or local storage to deposit
Storage device 714.
Spectrum analysis module 706 includes event matches part 716.Event matches part 716 can include being joined
Be set to by the fingerprint generated by sensor signal and the known fingerprint being stored in memory storage apparatus 714 and/
Or any suitable circuit, module and/or the software that pattern compares.In other words, by using event matches
Part 716, module 706 can vibration fingerprint and storage of based on sensing vibration patterns relatively identify
The example of county magistrate's part.Such as, the example startup stage of above-mentioned centrifugal pump experience can be by system 700
Identify.Such example can send user to and/or can maintain the counting of example.Other events can be by
Monitoring, such as door closedown, the startup of instrument and closedown, toilet flush, cycle of engine etc..
As described in Section 6 above, spectrum analysis module 706 can include learning parts 718.Study portion
Part 718 can include being configured to setting up or amendment known pattern so as by system recognize after a while any suitably
Circuit, module and/or software.Such as, known pattern can be loaded into by user via study parts 718
Memory storage apparatus 714.Additionally or alternatively, study parts 718 can be monitored thus with known pattern
Set up experience change, in order to preferably understanding and/or less flase drop.
FT analyzes module 708 can include that being configured to produce the Fourier corresponding to input signal continually becomes
Module, circuit and/or the software changed.This FT is generated and can be realized by any standard method, the soonest
Speed Fourier transformation (FFT) algorithm.This FT generates and can generate executed in parallel with the frequency spectrum of module 706.
In certain embodiments, one or two in module 706 and 708 can be enabled.In other words, often
Individual module can be the most in the same time, and/or be operated simultaneously for various applications.In this remaining described
Part supposes that two modular concurrent ground operate simultaneously.
FT analyzes module 708 and includes monitoring point identification module 720.Monitoring point mark module 720 can include
It is configured to identify any circuit, module and/or the software of the unique frequency in the FT of signal.Such as,
Frequency corresponding to higher amplitudes can be chosen.For example, it is possible to selected as other frequencies identified times
The frequency of number is for monitoring.
FT analyzes module 708 can include monitoring function 722, its can include being configured to keeping following the tracks of by
Any suitable part of the described system of the monitoring point that monitoring point identification module is set up.Such as, monitoring merit
The buffering of the time-based FT that energy 722 can be stored in memory storage apparatus 714, and can supervise
Survey at the new component of signal of characteristic frequency, the drift of existing peak value, harmonic wave etc..Root-mean-square (RMS)
Calculating can be executable to determine the integrality of signal.The change of RMS value may indicate that in signal meaningful
Change.
Diagnosis rule matching module 724 can be configured to the pattern of FT that system generated and characteristic with known
Rule and criterion compare.Such as, the operation of machinery and the vibration of fault mode are related at list of references
" the Basic Machinery Vibrations:An introduction to of such as Ronald L.Eshleman
Machine testing, analysis, and monitoring " (1999) are described quantitatively, above-mentioned with reference to literary composition
That offers whole is incorporated herein by for all purposes.
Indicating fault (that is, rule) (indicating fault such as described by Eshleman) is stored in storage
For identifying fault or bad in systems in device storage device 714 and by diagnosis rule matching module 724
The sign changed.Such as, motor normally can rotate with certain rotating speed, and it has corresponding spectral frequencies.If
Observing the new frequency of the twice being normal frequency, this may indicate that the dislocation of motor drive shaft.New or amendment
Rule and variable can be stored in by any suitable method known in the art memorizer storage dress
Put in 714.
Correspondingly, spectrum analysis module 706 can run to identify the generation of known event, and FT analyzes
Module can run to identify the instruction of known mechanical fault or deterioration.These modules can provide together about
The valuable information of system operation.Such information can be sent to use by report and output module 726
Family or other system.Report and output module 726 can provide the data of compilation, figure to show, audible police
Report, word indicator and/or analog, or their combination in any.
Generally, above-mentioned instruments monitor system (such as system 700) can include being configured to oscillation energy
It is converted into the transducer of the signal of telecommunication with waveform.Processor (also referred to as processor unit) can with change
Can communicate with memory storage apparatus by device, described processor includes being configured to be continuously generated based on waveform
Frequency spectrum and the signature blocks of Fourier transform (FT).Processor can also include the ratio communicated with signature blocks
Relatively module, comparison module is configured to the pattern of the feature by the frequency spectrum of generation and deposits with being stored in memorizer
Multiple known spectrum signature pattern in storage device relatively identifies the generation of known event, and by comparing
The FT generated and intended FT determines possible instrument failure.
The many aspects of vibration monitor system can be to be utilized in method step described below.In suitable feelings
Under condition, it is referred to previously described parts and system, described parts and system and can perform each step
Middle use.These are with reference to illustrating that, and be not intended to any particular step of restriction enforcement the method
Possible mode.Hereinafter describe and can not describe complete procedure.Although the following describing each step of the method,
But these steps are not necessarily required to all be performed, and in some cases, can be to be different from description
The order of order perform.
Can include sensing the multiple equipment generation by space for monitoring the method for the multiple equipment in space
Oscillation energy.The oscillation energy sensed can be converted to the signal of telecommunication with waveform.Frequency spectrum and Fourier
Leaf transformation (FT) can produce continuously based on waveform.The figure of the feature of the frequency spectrum that will generate can be passed through
Case compares the generation identifying known event with multiple known spectrum signature patterns.Possible instrument failure can
To be identified by comparing the FT and intended FT of generation.
User can be warned the generation of known event.
Identify possible instrument failure can include diagnosis rule based on a group selection and compare the FT of generation with
Intended FT.
The counting of the generation of known event can be maintained.
New spectrum signature pattern can be added in multiple known spectrum signature pattern.
The embodiment selected:
This part describes vibration monitor system and the other aspect of method and feature, is provided but is not limited to
A series of paragraphs, some of which or all can specify with alphanumeric with efficiency in order to clear.These sections
Every section fallen can in any suitable manner with other places in other paragraphs one or more and/or the application
Open combine, including by quoting and the material that is incorporated in cross reference.Some in paragraphs below
Paragraph explicitly refers to and limits other paragraphs further, it is provided that but it is not limited to the example in some appropriate combination.
A0. a vibration instruction system, it includes being configured in response to the vibration of sensing and generating alternating current
The transducer of stream, described alternating current has at least one component frequencies;The process communicated with described transducer
Circuit, described process circuit is configured to when described component frequencies falls in the range of first frequency produce first
Output;With the array of the vision element of described process circuit communication, described array is configured in response to described
Process the first output of circuit and continue visual state from first and change to the second lasting visual state.
A1. according to the system described in paragraph A0, wherein said transducer includes piezoelectric transducer.
A2. according to the system described in paragraph A0, described process circuit farther includes band filter.
A3. according to the system described in paragraph A2, described process circuit farther includes to be configured to the logical filter of attenuation band
The network of the resistive stacking of the output of ripple device, each in described resistive stacking has different effective resistance values.
A4. according to the system described in paragraph A3, the described network of the most resistive stacking includes and band filter
Multiple resistorss in parallel of arranged in series, each in described resistor has different resistance values.
A5 has correspondence according to the system described in paragraph A0, described first output of wherein said process circuit
Amplitude in the intensity of described alternating current.
A6. according to the system described in paragraph A5, wherein said second continues visual state corresponding to described first
The amplitude of output.
A7. according to the system described in paragraph A5, the several described of the described first amplitude exported wherein is corresponded to
Vision element changes and continues visual state to described second, to indicate peak vibration levels.
A8. according to the system described in paragraph A7, each element in wherein said multiple vision elements is configured
Visual state is continued to described second for changing when the amplitude of described first output is beyond corresponding threshold value, with
The instruction of the peak vibration levels for first frequency scope is provided.
A9. according to the system described in paragraph A0, described process circuit is further configured to when described component frequency
The second output is produced when rate is fallen in the range of second frequency.
A10. according to the system described in paragraph A9, the array of wherein said vision element is configured to
Change and continue visual state in response to the 3rd output of described process circuit to the 3rd.
A11. according to the system described in paragraph A0, wherein said transducer, described process circuit and described regard
Feel that the array of element includes the encapsulation unit being configured to be attached to monitoring device.
A12. according to the system described in paragraph A11, wherein said encapsulation unit includes being configured to be adhered to
The paste of the layering of monitoring device.
B0. a sensor, it includes the transducer being configured to that vibration is converted into the signal of telecommunication;It is electrically coupled to
The non-powered processor module of described transducer, described processor module is configured to when the signal of telecommunication is at the first frequency
The first output is produced when there is in the range of rate frequency component, and when the signal of telecommunication has in the range of second frequency
The second output is produced during frequency component;Including First look indicator and the array of the second visual detector, institute
State array and described processor module communication;Wherein said First look indicator is configured in response to described
First output the first example and change state constantly, and described second visual detector be configured to ring
Described in Ying Yu second output the first example and persistently change state.
B1. according to the sensor described in paragraph B0, described array farther includes the 3rd visual detector, its
Described in the 3rd visual detector be configured in response to described first output second example and persistently change
State.
B2. according to the sensor described in paragraph B0, the persistent state of wherein said First look indicator changes
Amplitude corresponding to described first output.
B3. according to the sensor described in paragraph B0, wherein said first and second visual detectors have two
Continue visual state.
B4. according to the sensor described in paragraph B0, wherein said first and second visual detectors have continuously
The lasting visual state of scope.
B5. according to the sensor described in paragraph B4, wherein said first and second visual detectors include response
Thermochromic material in the voltage of described first output.
B6. according to the sensor described in paragraph B0, wherein this sensor is configured to be directly mounted to be supervised
The instrument component that vibration measuring is dynamic.
C0. a method for the equipment that monitoring vibration exposes, the method includes: uses and is coupled to monitored setting
Standby unpowered transducer carrys out sense vibrations;The circuit with described transducer communication is used to determine the vibration of sensing
Frequency and amplitude, described circuit includes multiple band filters and only defeated by described transducer of stacking
Go out power supply;Utilize passive matrix displays display frequency visually and amplitude information.
C1. according to the method described in paragraph C0, wherein sense described vibration and include using piezoelectric element.
C2. according to the method described in paragraph C0, wherein said circuit includes and the plurality of band filter string
The resistive electronic circuit in parallel of the least one set stacking of connection.
C3. according to the method described in paragraph C0, show that described frequency and amplitude information include holding the most visually
Change the state of the array of visual detector continuously.
C4. according to the method described in paragraph C3, the state wherein changing described array includes changing constantly referring to
It is set to the state of at least one visual detector corresponding to described frequency information.
C5. according to the method described in paragraph C4, at least one visual detector described includes a number of regarding
Feel that indicator, wherein said quantity correspond to amplitude information.
C6. according to the method described in paragraph C4, farther include to change at least one visual detector described
Amount corresponding to the selection of amplitude information.
C7. according to the method described in paragraph C0, wherein determine that the described amplitude of the vibration of described sensing includes making
The output of described transducer pass through commutator at least partially.
C8. according to the method described in paragraph C0, farther include described transducer is installed to monitored setting
Standby.
D0. a method for the equipment that monitoring vibration exposes, the method includes: use transducer by sensing
Vibration is converted into the AC signal of telecommunication;The described AC signal of telecommunication is split into many by the multiple band filters using stacking
Individual subsignal so that each subsignal corresponds to corresponding component frequencies scope;The each subsignal of rectification is to produce
The corresponding D/C voltage of the raw amplitude with the intensity corresponding to respective sub-signal;Update visual displays to continue
Indicate the information of the component frequencies scope corresponding at least one in described subsignal.
D1. according to the method described in paragraph D0, wherein said division and rectification use only by described AC telecommunications
Number power supply circuit perform.
D2. according to the method described in paragraph D1, wherein said visual displays is operably connected to described electricity
Road.
D3. according to the method described in paragraph D1, farther include described transducer, described circuit and described
Visual displays is attached to monitored equipment as encapsulation.
D4. according to the method described in paragraph D0, wherein update described visual displays and farther include persistently to refer to
Show corresponding to the information of the amplitude of subsignal at least one described.
D5. according to the method described in paragraph D4, wherein update described visual displays and farther include persistently to refer to
Show the information of persistent period of at least one corresponding to described subsignal.
D6. according to the method described in paragraph D0, wherein said visual displays includes the array of vision element.
D7. according to the method described in paragraph D0, the most each described vision element has two possible visions
State.
E0. an instrument monitoring system, comprising: transducer, it is configured to oscillation energy is converted into tool
There is the signal of telecommunication of waveform;Processor, itself and described transducer and memory storage apparatus communication, described process
Device includes being configured to be continuously generated frequency spectrum and the signature blocks of Fourier transform (FT) based on waveform;Institute
Showing that processor farther includes the comparison module communicated with described signature blocks, described comparison module is configured to
By the pattern of the feature of the frequency spectrum of generation is multiple known be stored in described memory storage apparatus
Spectrum signature pattern is compared to identify the generation of known event, and by comparing FT and the expection of generation
FT identify possible instrument failure.
E1. according to the system described in paragraph E0, wherein said transducer is arranged on has multiple vibration generation
In the confined space of equipment so that the vibration pressure that described transducer receives from the plurality of equipment simultaneously shakes
Swing.
E2. according to the system described in paragraph E0, wherein said comparison module is configured to based on the fault selected
Rule carrys out FT described in comparison and intended FT.
E3. according to the system described in paragraph E2, wherein said comparison module is configured to identify FT peak value,
Its frequency is substantially the multiple of prospective peak value.
E4. according to the system described in paragraph E0, wherein said signature blocks is further configured to calculate correspondence
In the hash index of the fingerprint of the frequency spectrum generated, wherein said fingerprint is the feature summarizing the waveform selected
One class value.
E5. according to the system described in paragraph E0, wherein said transducer includes piezoelectric element.
E6. according to the system described in paragraph E0, the display with graphic user interface, institute are farther included
State display and described processor communication.
E7. according to the system described in paragraph E6, wherein said processor is configured to via described aobvious
Show device alarmed user identified known event.
E8. according to the system described in paragraph E0, wherein said processor is further configured to maintain at least one
The counting that known event occurs.
E9. according to the system described in paragraph E0, described processor farther includes to be configured to identify that frequency spectrum is special
The new pattern levied, the user's input receiving the event tag corresponding to described new pattern, and by described event
Label and new pattern are stored in described memory storage apparatus as one of known spectrum signature pattern
Study module.
F0. for the method monitoring the multiple equipment in space, the method includes: sensing is by many in space
The oscillation energy that individual equipment produces;The oscillation energy sensed is converted to the signal of telecommunication with waveform;Based on
Described waveform, continuously generates frequency spectrum and Fourier transform (FT);The pattern of feature of the frequency spectrum by generating
The generation identifying known event is compared with multiple known spectrum signature patterns;And by comparing the FT of generation
Possible instrument failure is determined with desired FT.
F1. according to the method described in paragraph F0, farther include known event described in alarmed user and occur.
F2. according to the method described in paragraph F0, wherein identify that possible instrument failure includes based on a group selection
Diagnosis rule and compare the FT and intended FT of generation.
F3. according to the method described in paragraph F0, the counting maintaining described known event to occur is farther included.
F4. according to the method described in paragraph F0, farther include to add new spectrum signature pattern to described
Multiple known spectrum signature patterns.
G0. a level of vibration indication sensor, comprising: piezoelectric element, described piezoelectric element is when exposing
When dynamic vibration, output has the signal of telecommunication of frequency range, and the amplitude of the described signal of telecommunication corresponds directly to described
The corresponding amplitude of the various frequency of vibration that sensor is exposed;The frequency bandpass filter of one group of stacking, it is used
It is split into multiple stacking frequency waveform, the frequency wave that multiple incremental higher levels are folded in piezoelectricity being exported the signal of telecommunication
Shape each corresponds to corresponding multiple frequency of vibration that described vibrating sensor is exposed;Multiple amplitude senses
Slowdown monitoring circuit, it receives the frequency waveform of the plurality of stacking respectively, and each amplitude sensing circuit is by independent electricity
Pressure output is applied to multiple visual detector;Multiple visual detectors are multiple corresponding to corresponding frequency waveform
The higher amplitudes level being incremented by, the plurality of visual detector is connected to for corresponding described frequency waveform
Amplitude sensing circuit, each visual detector has threshold transition voltage, when higher than described threshold transition electricity
During pressure, the permanent visualization of indicator changes and occurs, the result being applied in as threshold transition voltage;The most every
Individual amplitude sensing circuit determines the amplitude level of its corresponding frequency current waveform and is applied by threshold transition voltage
To each independent indicator, described indicator, corresponding to the amplitude level exceeded by characteristic frequency waveform, makes
The visual detector of the multiple adjustings to a line obtaining order changes to indicate the amplitude of certain vibration frequency in appearance
Level, consequently facilitating the vision of the peak amplitude of each certain vibration frequency that this vibrating sensor is exposed
Read.
G1. according to the level of vibration indication sensor described in paragraph G0, wherein said visual detector includes ringing
Answer the thermochromic material of temperature, and the described threshold transition voltage applied can produce be enough to cause described
The heat of the cosmetic variation of the described thermochromic material of visual detector.
G2. according to the sensor described in paragraph G0, wherein said amplitude sensing circuit include current rectifier and
The resistor network of stacking.
G3. according to the level of vibration indication sensor described in paragraph G0, wherein said visual detector includes tool
Having the LED of threshold transition voltage, higher than described threshold transition voltage, described LED experience is apparent forever
Visible change, reaches more longer than predetermined period of time being applied to described LED as described threshold transition voltage
The result of time.
Conclusion
Disclosure set forth above can include the multiple different inventions with independent utility.Although these inventions
In each be disclosed with its preferred multiple forms, but as disclosed herein and its specific embodiment of illustrating
It is not considered as in a limiting sense, because many variants are possible.For the part mark used in the disclosure
Topic, this type of title, only for organizational goal, does not constitute the sign of any claimed invention.Multiple inventions
Theme include the whole novel and non-aobvious of various element, feature, function and/or attribute disclosed herein and
Obvious combination and sub-portfolio.Appended claims particularly point out be considered as novel and non-obvious some
Combination and sub-portfolio.Other combination and sub-portfolio of feature, function, element and/or attribute are implemented many
Individual invention can be claimed in requiring the application of priority of the application or related application.Such power
Profit requirement, either for different inventions or for identical invention, and compared with original claim
Scope is the most wider, narrower, identical or different, is regarded as being included in the master of multiple inventions of the disclosure
In topic.
Claims (17)
1. vibration instruction system (40), comprising:
Transducer (22), it is configured in response to the vibration of sensing and generates alternating current (46), described
Alternating current (46) has at least one component frequencies (54);
The process circuit (48) communicated with described transducer (22), described process circuit (48) is configured to
The first output is produced when described component frequencies (54) falls in the range of first frequency;And
The vision element (170-176,278-284,384-390) communicated with described process circuit (48)
Array (178,202,302,402), described array (178,202,302,402) is configured to respond to
Continue visual state change from first continue to second in described first output of described process circuit (48)
Visual state.
System the most according to claim 1 (40), it is logical that described process circuit (48) farther includes band
Wave filter (52).
System the most according to claim 1 (40), described process circuit (48) farther includes to be joined
Be set to decay the resistive stacking (162-168,262-268,362-368) of output of described band filter (52)
Network, each described resistive stacking has different effective resistance values.
System the most according to claim 1 (40), described the first of wherein said process circuit (48)
Output has the amplitude of the intensity corresponding to described alternating current (46).
System the most according to claim 4 (40), wherein corresponding to the number of the described first amplitude exported
Individual described vision element (170-176,278-284,384-390) changes and continues visual state to described second,
To indicate peak vibration levels.
System the most according to claim 1 (40), wherein said transducer (22), described process electricity
The array of road (48) and described vision element (170-176,278-284,384-390) (178,202,
302,402) encapsulation unit being configured to be attached to monitored equipment is included.
System the most according to claim 1 (40), wherein said process circuit (48) including:
It is electrically coupled to the non-powered processor module (504) of described transducer (22,502,702), described
Processor module (504) is configured as the described signal of telecommunication and has the frequency component in the range of first frequency
(52) the first output is produced time, and when the described signal of telecommunication has the frequency component in the range of second frequency
(52) the second output is produced time;And
The array of wherein said vision element (170-176,278-284,384-390) (178,202,302,
402) including First look indicator (170) and the second visual detector (172), described array is with described
Processor module (504) communicates;
Wherein said First look indicator (170) is configured in response to the first example of described first output
And change state constantly, and described second visual detector (172) is configured in response to described second
Output the first example and change state constantly.
System the most according to claim 7 (40), described array farther includes the 3rd visual detector
(174), wherein said 3rd visual detector (174) is configured in response to the second of described first output
Example and change state constantly.
System the most according to claim 7 (40), wherein said First look indicator (170)
Persistent state changes the amplitude corresponding to described first output.
System the most according to claim 7 (40), wherein said first and second visual detectors
(170,172) include the thermochromic material of the voltage in response to described first output.
11. systems according to claim 7 (40), wherein said transducer (22) is configured to directly
Connect the instrument component being installed to monitored vibration.
The method of the equipment (18) of 12. 1 kinds of monitoring vibration exposures, described method includes:
The non-powered transducer (22,502,702) being coupled to monitored equipment (18) is used to sense
Vibration;
The circuit (48) that use communicates with described transducer (22) determines the frequency of the vibration of sensing and shakes
Width, described circuit (48) includes multiple band filters (52) of stacking and only by described transducer (22)
Output power;And
Passive matrix displays (96) is used to show described frequency and amplitude information visually.
13. methods according to claim 12, wherein sense described vibration and include using piezoelectric element
(22,502,702).
14. methods according to claim 12, show described frequency and amplitude information bag the most visually
Include change constantly visual detector (170-176,278-284,384-390) array (178,202,
302,402) state.
15. methods according to claim 14, wherein change described array (178,202,302,402)
State include changing constantly and be designated as at least one visual detector corresponding to described frequency information
The state of (170-176,278-284,384-390).
16. methods according to claim 15, farther include at least one visual detector described
(170-176,278-284,384-390) changes the amount of the selection corresponding to described amplitude information.
17. methods according to claim 12, wherein determine that the described amplitude of sensed vibration includes
Make described transducer (22,502,702) output pass through commutator at least partially.
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US14/681,939 US9955274B2 (en) | 2015-04-08 | 2015-04-08 | Vibration monitoring systems |
US14/681,939 | 2015-04-08 |
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Also Published As
Publication number | Publication date |
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CA2917321A1 (en) | 2016-10-08 |
US9955274B2 (en) | 2018-04-24 |
CN106052845B (en) | 2020-06-26 |
US20160302019A1 (en) | 2016-10-13 |
EP3078946A1 (en) | 2016-10-12 |
US20180242091A1 (en) | 2018-08-23 |
EP3078946B1 (en) | 2018-08-22 |
US10674297B2 (en) | 2020-06-02 |
CA2917321C (en) | 2021-01-26 |
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